Wireless Video Transmission Module
| Cat | Products Name | Price |
|---|---|---|
| AIMRSE-RV-VCP-053 | 5W Programmable LED Light Controller | |
| AIMRSE-RV-VCP-054 | 10W 80-Channel LED Light Controller | |
| AIMRSE-RV-VCP-055 | Dual-Channel Precision LED Controller (25mW/200mW) | |
| AIMRSE-RV-VCP-056 | 200mW Dual-Channel Precision LED Controller | |
| AIMRSE-RV-VCP-057 | Wide-Angle LED Controller (25mW/1.8W) | |
| AIMRSE-RV-VCP-058 | HDR LED Controller (25mW/1.2W) | |
| AIMRSE-RV-VCP-059 | High-Reliability LED Controller (25mW/2.5W) | |
| AIMRSE-RV-VCP-060 | High-Power MIMO Wireless Data Link (1.4GHz, 10W) | |
| AIMRSE-RV-VCP-061 | Compact MIMO Wireless Data Link (1.4GHz, 300mW) | |
| AIMRSE-RV-VCP-062 | Tri-Band MIMO Wireless Data Link (800MHz/1.4GHz/2.4GHz) |
Introduction
An Industrial Wireless Video Transmission Module is a specialized communication system designed to deliver high-definition video streams without the constraints of physical cabling. Utilizing advanced COFDM modulation or high-speed WiFi 6/5G protocols, these modules provide ultra-low latency links between mobile robotic platforms and remote control centers. They are engineered to maintain signal integrity in environments with heavy electromagnetic interference, supporting real-time visual feedback for autonomous mobile robots (AMR), remote inspection drones, and hazardous area monitoring systems where tethering is impossible.
Working Principle
1. Signal Encoding
The raw video input from the camera is compressed in real-time using H.264/H.265 codecs to reduce bandwidth while maintaining visual clarity.
2. RF Modulation
The encoded data is modulated onto radio frequencies (e.g., 1.4GHz, 2.4GHz, or 5.8GHz) using anti-interference algorithms and encryption.
3. Wireless Link
Data packets are transmitted through the air to a receiver unit, utilizing MIMO (Multiple-Input Multiple-Output) technology to maximize range and stability.
4. Stream Decoding
The receiver unit decrypts and decodes the RF signal back into a video stream, outputting it to a monitor or vision controller for real-time analysis.
Key Technical Specifications
-
Ultra-Low Latency Transmission
Optimized hardware pipelines deliver end-to-end latency as low as 30ms-80ms, essential for real-time remote piloting and robotic safety. -
Long-Range Connectivity
Supports line-of-sight (LOS) distances from 500m to 10km+, making it suitable for large-scale outdoor inspections and offshore robotics. -
DFS & Frequency Hopping
Equipped with Dynamic Frequency Selection and automatic frequency hopping to avoid interference from existing factory WiFi and radio noise. -
Secure Data Encryption
Utilizes AES-128/256 bank-level encryption to ensure that sensitive industrial video streams remain protected from unauthorized interception. -
Bidirectional Data Link
Simultaneously transmits high-def video and transparent serial data (RS232/485/TTL) for remote PTZ control or telemetry feedback. -
Rugged Industrial Build
CNC-machined aluminum housings with IP67 protection, designed to withstand extreme temperatures, vibrations, and high humidity.
Fig 1. Long-range Wireless Transmission Module for Autonomous Mobile Robots
Data Interfaces
HDMI / SDI Input & Output
Standard broadcast-grade connectors for direct connection to industrial cameras, ensuring zero-loss signal quality before encoding.
Ethernet / IP Video
Supports RTSP/RTMP streams via RJ45, allowing GigE Vision cameras to be integrated into a wireless network infrastructure seamlessly.
Transparent Serial Port
Integrated UART/RS232 ports for transmitting control commands from the ground station to the robotic actuator or sensor suite.
Typical Applications
Mobile Robot Navigation
Real-time visual feedback for AMRs operating in large warehouses where roaming WiFi coverage may be inconsistent.
Hazardous Area Monitoring
Wireless monitoring in chemical plants or nuclear facilities, allowing operators to inspect equipment from a safe distance.
Construction & Heavy Machinery
Wireless camera systems for tower cranes and heavy excavators, providing operators with clear views of blind spots and cargo.
Selection Guide
Stable wireless imaging requires matching the transmission technology to your operational environment. At AIMRSE, we help you optimize your wireless links:
- Frequency Selection: 2.4GHz for better penetration through obstacles vs. 5.8GHz for higher bandwidth and less interference.
- Latency Requirements: Selecting uncompressed zero-latency modules for precision remote surgery or piloting, vs. compressed H.265 for long-range surveillance.
- Antenna Configuration: Choosing between omni-directional antennas for mobile platforms and directional high-gain antennas for fixed point-to-point links.
- Bandwidth Management: Dynamic bitrate adjustment to ensure a smooth video stream even when the signal strength fluctuates.
Reliability & Spectrum Standards
Our wireless modules are certified for global industrial use and adhere to strict radio standards:
- Certifications: Full FCC, CE, and SRRC compliance for legal operation across different radio spectrums.
- Anti-Interference: Advanced OFDM/MIMO technology for robust performance in multi-path interference environments.
- Industrial Durability: Tested for high-shock resistance and wide operating temperatures (-40°C to +85°C).
Integration & Setup Support
We provide a comprehensive set of tools to ensure your wireless vision link is optimized for peak performance:
- Spectrum analysis software to identify the cleanest local channels.
- Configuration APIs for remote monitoring of link quality and signal strength.
- Support for multi-receiver broadcasting (One-to-Many configurations).
- Ready-to-use mounting hardware for AGV and drone frames.
Related Products
Technical data represent typical values. As applications vary, we recommend consulting our technical team to ensure the best fit for your specific requirements.
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